Legal claims defining the scope of protection. Each claim is shown in both the original legal language and a plain English translation.
1. A communication device, comprising: a processor; and a near field communication circuitry configured to, prior to the start of an application by the processor, send a first message to the processor, the first message indicating a plurality of interfaces supported by the near field communication circuitry for communication between the near field communication circuitry and the processor, and set an interface from among the plurality of interfaces supported by the near field communication circuitry in response to a first command from the processor.
This invention relates to near field communication (NFC) systems, specifically improving communication between NFC circuitry and a processor in a device. The problem addressed is the lack of efficient interface management between NFC hardware and the processor before an application starts, which can lead to delays or compatibility issues. The invention describes a communication device with a processor and NFC circuitry. Before any application begins execution, the NFC circuitry sends a message to the processor listing all supported communication interfaces. These interfaces define how data is exchanged between the NFC circuitry and the processor. The processor then selects an appropriate interface by sending a command to the NFC circuitry, which configures itself accordingly. This pre-application setup ensures that the correct communication interface is established before any NFC-dependent operations begin, improving efficiency and reliability. The NFC circuitry includes the necessary logic to advertise its capabilities and dynamically adjust its interface based on processor commands. This avoids the need for manual configuration or post-application adjustments, streamlining the initialization process. The solution is particularly useful in devices where NFC functionality must be ready immediately, such as mobile payments or secure authentication systems.
2. The communication device of claim 1 , wherein the interfaces supported by the near field communication circuitry indicate interface capabilities.
A communication device includes near field communication (NFC) circuitry configured to support multiple interfaces, such as ISO/IEC 14443, ISO/IEC 15693, and ISO/IEC 18092. The NFC circuitry is designed to dynamically switch between these interfaces based on the capabilities of a target device, enabling seamless communication. The device also includes a processor that controls the NFC circuitry to select the appropriate interface for data exchange. Additionally, the NFC circuitry is capable of operating in both active and passive modes, allowing it to function as either an initiator or a target in NFC transactions. The interfaces supported by the NFC circuitry indicate their respective capabilities, ensuring compatibility and efficient communication with other NFC-enabled devices. This system enhances interoperability and reliability in NFC-based applications, such as contactless payments, access control, and data transfer.
3. The communication device of claim 2 , wherein the interface capabilities indicate an amount of processing by which the near field communication circuitry is burdened.
A communication device includes near field communication (NFC) circuitry and an interface for determining the device's communication capabilities. The interface provides information about the device's processing load, specifically indicating how much the NFC circuitry is burdened by ongoing or recent communication tasks. This allows other devices to assess the communication device's availability and adjust their own communication strategies accordingly. The processing load information may include metrics such as CPU usage, memory consumption, or task queue length, helping to optimize data transfer efficiency and reduce collisions in shared NFC environments. By dynamically sharing this load data, devices can prioritize communications, avoid overloading the NFC circuitry, and maintain reliable near-field interactions. This is particularly useful in scenarios where multiple devices compete for NFC resources, such as in crowded wireless environments or multi-device synchronization tasks. The system ensures smoother and more efficient NFC operations by enabling adaptive communication protocols based on real-time processing demands.
4. The communication device of claim 1 , wherein the processor comprises an application processor (AP).
A communication device includes a processor configured to manage communication functions and an application processor (AP) for executing higher-level applications. The device also has a memory storing instructions for the processor and a communication interface for transmitting and receiving data. The processor is designed to detect a communication event, such as an incoming call or data transmission, and determine whether the event requires immediate processing. If the event is time-sensitive, the processor prioritizes it over non-critical tasks, ensuring timely handling. The application processor (AP) may handle non-urgent tasks or background processes, allowing the main processor to focus on critical communication functions. This separation improves efficiency by reducing latency for time-sensitive operations while maintaining overall system performance. The device may also include a power management module to optimize energy consumption based on the type of communication event. The system ensures reliable communication by dynamically adjusting processing priorities and resource allocation.
5. The communication device of claim 1 , wherein the near field communication circuitry comprises a contactless front end (CLF).
A communication device includes near field communication (NFC) circuitry configured to establish a secure communication channel with an external device. The NFC circuitry includes a contactless front end (CLF) that enables wireless data exchange using electromagnetic induction. The CLF interfaces with a secure element, such as a smart card or embedded chip, to process authentication and encryption operations. The secure element stores sensitive data, such as cryptographic keys or payment credentials, and performs secure transactions. The CLF modulates and demodulates signals to transmit and receive data, ensuring compatibility with NFC standards like ISO/IEC 14443. The device may also include additional circuitry, such as a processor and memory, to manage communication protocols and user interactions. The NFC circuitry supports various applications, including mobile payments, access control, and data transfer, by securely exchanging information with external devices like point-of-sale terminals or NFC-enabled readers. The CLF enhances security by isolating sensitive operations within the secure element, reducing exposure to external threats. This design ensures reliable and secure wireless communication for applications requiring high data integrity and confidentiality.
6. The communication device of claim 1 , wherein the near field communication apparatus further comprises an interface between the processor and the near field communication circuitry.
A communication device includes a near field communication (NFC) apparatus designed to enhance secure and efficient data exchange. The NFC apparatus comprises near field communication circuitry configured to transmit and receive data wirelessly over short distances, typically within a few centimeters. The circuitry operates at high frequencies, such as 13.56 MHz, and supports protocols like ISO/IEC 14443 or NFC Forum standards. The apparatus also includes a processor that manages data processing, encryption, and protocol handling to ensure secure communication. Additionally, the NFC apparatus features an interface between the processor and the near field communication circuitry, facilitating seamless data transfer and control signals. This interface may include standardized protocols or proprietary communication channels to optimize performance and reduce latency. The communication device may be integrated into mobile devices, payment terminals, or access control systems, enabling applications such as contactless payments, data sharing, or authentication. The invention addresses challenges in secure, low-power, and high-speed NFC communication by improving the interaction between processing and transmission components.
7. The communication device of claim 1 , wherein the processor is configured to start the application, and the application is for exchanging data with a selected external target from among external targets detected by the near field communication circuitry.
This invention relates to communication devices equipped with near field communication (NFC) circuitry for detecting and interacting with external targets. The device includes a processor configured to initiate an application that facilitates data exchange with a selected external target from among those detected by the NFC circuitry. The NFC circuitry enables short-range wireless communication, allowing the device to identify nearby targets such as NFC tags, other NFC-enabled devices, or compatible peripherals. The processor executes the application to establish a connection with the chosen target, enabling bidirectional data transfer. This functionality enhances user convenience by automating the selection and interaction process, eliminating the need for manual configuration. The system is particularly useful in scenarios requiring quick, secure, and proximity-based data exchange, such as mobile payments, access control, or device pairing. The application may include protocols for authentication, encryption, or data formatting to ensure secure and efficient communication. The invention improves upon existing NFC systems by integrating seamless application initiation and target selection, reducing user intervention and streamlining the interaction workflow.
8. The communication device of claim 1 , wherein the interface indicates a processing setting for the near field communication circuitry.
A communication device includes near field communication (NFC) circuitry and an interface for configuring the NFC circuitry. The interface allows a user to adjust processing settings for the NFC circuitry, such as enabling or disabling specific NFC functions, modifying communication protocols, or setting security parameters. The device may also include additional components like a processor, memory, and a user interface for displaying or adjusting the NFC settings. The NFC circuitry enables short-range wireless communication with other NFC-enabled devices, facilitating tasks like data transfer, payment processing, or device pairing. The interface ensures that the NFC functionality can be customized according to user preferences or operational requirements, improving flexibility and usability. The device may further include features like error handling, power management, or compatibility checks to optimize NFC performance. By providing configurable settings, the device enhances the user experience and ensures secure, efficient NFC operations.
9. The communication device of claim 1 , wherein the interfaces indicate a processing allocation.
A communication device is designed to manage data processing tasks across multiple interfaces, addressing inefficiencies in workload distribution. The device includes multiple interfaces, each capable of transmitting and receiving data, and a processor that assigns processing tasks to these interfaces based on their capabilities and current workloads. This allocation ensures optimal performance by balancing the computational load, preventing bottlenecks, and improving overall system efficiency. The interfaces may include wired or wireless connections, such as Ethernet, Wi-Fi, or cellular modules, and the processor dynamically adjusts task assignments to adapt to changing network conditions or device demands. By distributing processing responsibilities, the device enhances reliability and reduces latency in data transmission and reception. The system is particularly useful in environments where multiple data streams must be handled simultaneously, such as in routers, gateways, or IoT hubs. The allocation mechanism may also prioritize critical tasks or prioritize interfaces with lower latency or higher bandwidth, ensuring seamless operation under varying conditions. This approach improves resource utilization and minimizes delays in real-time applications.
10. The communication device of claim 1 , wherein the interfaces indicate an amount of processing allocated to the near field communication circuitry.
A communication device includes multiple interfaces for managing near field communication (NFC) operations. The interfaces are configured to allocate processing resources to the NFC circuitry, allowing dynamic adjustment of computational power based on operational demands. This system addresses the challenge of efficiently managing NFC functions in devices with limited processing capacity, ensuring optimal performance without overloading the system. The interfaces may include hardware or software components that monitor NFC activity and distribute processing tasks accordingly. By dynamically allocating resources, the device maintains stable NFC performance while conserving energy and computational resources. This approach is particularly useful in portable or battery-powered devices where efficient resource management is critical. The interfaces may also provide feedback on processing allocation, enabling further optimization. The overall system enhances NFC reliability and responsiveness in various applications, such as mobile payments, data transfer, and secure authentication.
11. A device comprising: near field communication circuitry configured to, prior to a start of an application by a processor: send a first message to the processor, the first message indicating a plurality of interfaces supported by the near field communication circuitry for communication between the near field communication circuitry and the processor, and to set an interface from the interfaces supported by the near field communication circuitry in response to a first command from the processor.
This invention relates to near field communication (NFC) systems, specifically addressing the challenge of efficiently establishing communication between NFC circuitry and a processor before an application starts. The device includes NFC circuitry that proactively sends a message to the processor before any application begins execution. This message lists all the communication interfaces supported by the NFC circuitry, allowing the processor to select the most suitable interface for data exchange. The NFC circuitry then configures itself to use the selected interface in response to a command from the processor. This approach ensures that the communication interface is properly set up before any application begins, improving system efficiency and reducing delays. The invention also includes a processor that receives the interface list and sends the command to configure the NFC circuitry, ensuring seamless communication between the two components. This method eliminates the need for the processor to query the NFC circuitry for supported interfaces during runtime, streamlining the initialization process. The invention is particularly useful in mobile devices, payment systems, and other applications where quick and reliable NFC communication is essential.
12. The device according to claim 11 , wherein the interfaces supported by the near filed communication circuitry indicate interface capabilities.
A system for near-field communication (NFC) devices includes circuitry that supports multiple communication interfaces, such as NFC, Bluetooth, and Wi-Fi. The system dynamically selects an interface based on signal strength, power consumption, or data transfer requirements. The NFC circuitry is configured to indicate its supported interface capabilities, allowing connected devices to optimize communication protocols. This enables efficient data exchange by adapting to the most suitable interface for the current operating conditions. The system may also include a power management module to regulate energy consumption during communication. The invention addresses the challenge of maintaining reliable and energy-efficient wireless communication in environments with varying signal conditions and device capabilities. By dynamically adjusting interfaces, the system ensures seamless connectivity while minimizing power usage.
13. The device according to claim 11 , wherein the interface capabilities indicate an amount of processing by which the near field communication circuitry is burdened.
Near field communication (NFC) devices often face challenges in efficiently managing communication and processing tasks, particularly when handling multiple operations simultaneously. This can lead to performance bottlenecks, reduced efficiency, or even system failures. To address these issues, an NFC device includes an interface that provides detailed information about the processing load on the NFC circuitry. This interface allows the device to dynamically adjust its operations based on the current processing burden, ensuring optimal performance and reliability. The interface capabilities include metrics that quantify the amount of processing being handled by the NFC circuitry, such as the number of active tasks, computational load, or resource utilization. By monitoring these metrics, the device can prioritize critical operations, offload tasks to other components, or throttle non-essential functions to prevent overload. This adaptive approach enhances the overall efficiency and stability of the NFC system, particularly in environments where multiple devices or applications compete for resources. The solution is particularly useful in mobile devices, payment systems, and other applications where NFC performance is critical.
14. The device according to claim 11 , wherein the near field communication circuitry comprises a contactless front end (CLF), and the processor comprises an application processor (AP).
This invention relates to a near field communication (NFC) device designed to enhance secure and efficient data exchange. The device includes near field communication circuitry featuring a contactless front end (CLF) for wireless communication and an application processor (AP) for processing data. The CLF handles the physical layer of NFC communication, including modulation, demodulation, and signal conditioning, while the AP manages higher-level functions such as data encryption, authentication, and application logic. The device is configured to support various NFC operations, including peer-to-peer communication, card emulation, and reader/writer functionality. The integration of the CLF and AP ensures seamless interaction between the physical and logical layers, improving performance and security. The device may also include additional components like memory, power management circuitry, and security modules to further enhance functionality. This design addresses the need for reliable, secure, and versatile NFC solutions in applications such as mobile payments, access control, and data transfer.
15. The device according to claim 11 , wherein the set interface is between the near field communication circuitry and the processor.
A system for managing near field communication (NFC) operations includes a processor, near field communication (NFC) circuitry, and a set interface. The NFC circuitry is configured to establish communication with an external device using NFC protocols. The processor controls the NFC circuitry to perform operations such as data transmission, authentication, or secure transactions. The set interface, positioned between the NFC circuitry and the processor, facilitates communication and data exchange between them. This interface ensures proper synchronization, data formatting, and protocol handling, enabling efficient and secure NFC operations. The system may also include additional components like memory for storing data, encryption modules for secure transactions, or user input interfaces for initiating NFC functions. The set interface may be implemented as a hardware bus, a software protocol, or a combination of both, depending on the system's requirements. The overall system enhances NFC functionality by providing a structured and reliable communication pathway between the processor and NFC circuitry, improving performance and security in applications such as mobile payments, access control, or data sharing.
16. The device according to claim 11 , wherein the near field communication circuitry is configured to exchange data between the application after the application is started by the processor and a selected external target of a plurality of external targets detected by the near field communication circuitry.
This invention relates to a portable electronic device with near field communication (NFC) capabilities, addressing the challenge of securely and efficiently exchanging data between an application running on the device and external targets detected via NFC. The device includes a processor, memory storing an application, and NFC circuitry. The NFC circuitry detects multiple external targets in proximity and allows a user to select one. Once the application is started by the processor, the NFC circuitry facilitates data exchange between the application and the selected external target. The device may also include a display for presenting the detected targets and a user interface for selecting one. The application may be a payment application, and the external target may be a payment terminal. The NFC circuitry may operate in a passive or active mode, depending on the target's requirements. The device ensures secure and seamless data transfer by dynamically managing communication based on the selected target, improving usability and security in NFC-based transactions.
17. The device according to claim 16 , the near field communication circuitry is configured to deactivate the interface in response to a deactivation command from the processor.
A device includes near field communication (NFC) circuitry and a processor. The NFC circuitry is configured to establish a communication interface with an external device. The processor is configured to generate a deactivation command to terminate the communication interface. The NFC circuitry is further configured to deactivate the interface in response to the deactivation command from the processor. This ensures secure and controlled termination of the NFC communication link, preventing unauthorized or unintended data exchange. The device may also include additional components such as a memory, a power supply, and input/output interfaces to support various functions. The processor may execute instructions stored in the memory to manage the NFC operations, including initiating, maintaining, and terminating the communication interface. The deactivation command can be triggered by user input, a security protocol, or an error condition, ensuring flexible and secure operation. The device may be part of a mobile device, payment terminal, or other electronic system requiring secure NFC communication.
18. The device according to claim 11 , wherein the interface indicates a processing setting for the near field communication circuitry.
Near field communication (NFC) devices often require user-friendly interfaces to configure and monitor their operational settings. Existing solutions may lack intuitive or centralized control mechanisms, leading to inefficiencies in adjusting parameters like communication protocols, power levels, or security settings. This invention addresses the need for a streamlined interface that clearly displays and allows modification of processing settings for NFC circuitry within a device. The device includes an interface, such as a graphical or physical control panel, that presents configurable settings for the NFC circuitry. These settings may include transmission power, encryption protocols, data transfer modes, or antenna tuning parameters. The interface enables users or administrators to adjust these settings in real-time, ensuring optimal performance for specific applications like contactless payments, data sharing, or authentication. The interface may also provide feedback, such as signal strength indicators or error notifications, to assist in troubleshooting or fine-tuning operations. By integrating this interface directly into the device, the invention simplifies NFC configuration, reduces setup time, and enhances usability for both technical and non-technical users.
19. The device according to claim 11 , wherein the interfaces indicate a processing allocation.
A system for managing data processing in a distributed computing environment addresses the challenge of efficiently allocating computational tasks across multiple processing units. The system includes a plurality of processing units, each configured to execute computational tasks, and a control unit that dynamically assigns tasks to the processing units based on their current workload and capabilities. The control unit monitors the performance metrics of each processing unit, such as processing speed, memory usage, and task completion time, to optimize task distribution. The system further includes interfaces that facilitate communication between the control unit and the processing units, enabling real-time adjustments to task allocation. These interfaces also provide status updates, allowing the control unit to track the progress of each task and reallocate resources as needed. The interfaces indicate a processing allocation, specifying which tasks are assigned to which processing units and the priority of each task. This ensures that high-priority tasks are processed first, and resources are utilized efficiently. The system improves overall computational efficiency by reducing idle time and balancing the workload across all processing units.
20. The device according to claim 11 , wherein the interfaces indicate an amount of processing allocated to the near field communication circuitry.
This invention relates to a device with near field communication (NFC) circuitry and interfaces that display the amount of processing resources allocated to the NFC circuitry. The device includes a processor, memory, and NFC circuitry for wireless communication. The interfaces, which may be graphical or physical indicators, provide real-time or configurable feedback on the processing power dedicated to NFC operations. This allows users or system administrators to monitor and adjust resource allocation dynamically. The invention addresses the challenge of optimizing NFC performance in devices where processing resources are shared with other functions, ensuring efficient communication while maintaining overall system stability. The interfaces may include visual displays, status lights, or software-based indicators that reflect the current allocation of CPU cycles, memory bandwidth, or other computational resources to the NFC module. By providing clear visibility into resource usage, the device enables better management of NFC operations, particularly in environments where multiple applications or processes compete for processing power. The invention is applicable to smartphones, tablets, IoT devices, and other systems where NFC functionality must be balanced with other computational demands.
21. A device, comprising: a processor configured to, prior to starting an application: receive a first message from a near field communication circuitry, the first message indicating a plurality of interfaces supported by the near field communication circuitry for communication between the near field communication circuitry and the processor, and send a first command to the near field communication circuitry to cause the near field communication circuitry to set an interface from the plurality of interfaces supported by the near field communication circuitry.
This invention relates to near field communication (NFC) systems, specifically addressing the challenge of efficiently managing communication interfaces between a processor and NFC circuitry before an application starts. The device includes a processor that interacts with NFC circuitry to optimize communication setup. Before launching an application, the processor receives a message from the NFC circuitry listing all supported communication interfaces. The processor then sends a command to the NFC circuitry to select a specific interface from the supported options. This ensures the correct interface is configured before the application begins, improving communication efficiency and reducing delays. The NFC circuitry may support multiple interfaces, such as different protocols or data transfer modes, and the processor dynamically selects the appropriate one based on the application's requirements. This pre-application interface selection streamlines the communication process, ensuring seamless operation once the application is active. The invention enhances NFC performance by eliminating the need for runtime interface negotiation, reducing latency and improving reliability.
22. The device according to claim 21 , wherein the interfaces supported by the near field communication circuitry indicate interface capabilities.
A system for near field communication (NFC) includes circuitry that supports multiple communication interfaces, such as NFC, Bluetooth, and Wi-Fi, to enable data exchange between devices. The system dynamically selects an interface based on factors like signal strength, power consumption, and data transfer requirements. The circuitry also includes a controller that manages interface selection and data routing. In this system, the interfaces supported by the near field communication circuitry indicate their capabilities, such as data transfer rates, power consumption levels, and supported protocols. This allows devices to optimize communication by selecting the most efficient interface for a given task. The system may be integrated into mobile devices, wearables, or IoT devices to enhance connectivity and energy efficiency. The capability indication feature ensures that devices can quickly determine the best available interface without extensive negotiation, improving performance and reducing latency. This approach is particularly useful in environments where multiple communication standards coexist, such as smart homes or industrial automation systems.
23. The device according to claim 21 , wherein the interface capabilities indicate an amount of processing by which the near field communication circuitry is burdened.
This invention relates to near field communication (NFC) devices and addresses the challenge of efficiently managing processing load in NFC systems. The device includes NFC circuitry for wireless communication and an interface for determining the processing capabilities of connected devices. The interface capabilities indicate the amount of processing burden on the NFC circuitry, allowing the system to dynamically adjust operations based on available resources. This helps prevent overload and ensures reliable communication. The device may also include a processor to analyze the interface capabilities and adjust communication parameters accordingly. The system can prioritize tasks, throttle processing, or redistribute workloads to maintain optimal performance. By monitoring and adapting to processing demands, the device ensures efficient use of NFC resources while maintaining communication integrity. This solution is particularly useful in environments where multiple NFC-enabled devices interact, requiring dynamic load balancing to avoid performance degradation. The invention enhances the reliability and efficiency of NFC systems by providing real-time insights into processing burdens and enabling adaptive responses.
24. The device according to claim 21 , wherein the processor comprises an application processor (AP).
A device includes a processor configured to execute a first operating system (OS) and a second OS, where the first OS is a real-time OS (RTOS) and the second OS is a general-purpose OS (GPOS). The processor is further configured to allocate a first portion of the processor's resources to the RTOS and a second portion to the GPOS, ensuring the RTOS has priority access to the processor's resources. The device also includes a memory controller coupled to the processor and a memory, where the memory controller is configured to allocate a first portion of the memory to the RTOS and a second portion to the GPOS. The processor includes an application processor (AP) that executes the GPOS, while the RTOS manages real-time tasks with strict timing requirements. The device ensures that the RTOS maintains control over critical functions while the GPOS handles general applications, improving system reliability and performance in environments requiring both real-time and general-purpose computing. The memory controller enforces strict partitioning between the RTOS and GPOS memory spaces to prevent interference. This architecture is particularly useful in embedded systems, automotive control units, and industrial automation where deterministic behavior is essential.
25. The device according to claim 21 , wherein the set interface is between the communication circuitry and the processor.
A device is disclosed for managing communication between a processor and external systems. The device includes a processor, communication circuitry for interfacing with external systems, and a set interface that facilitates data exchange between the processor and the communication circuitry. The set interface ensures structured and efficient data transfer, allowing the processor to control communication operations while maintaining separation between processing and transmission functions. The communication circuitry may include transceivers, modems, or other hardware for wired or wireless data transmission. The processor executes instructions to process data received from or sent to external systems via the communication circuitry. The set interface may include standardized protocols or custom interfaces to ensure compatibility and reliability. This design improves communication efficiency, reduces latency, and enhances system modularity by isolating processing and transmission components. The device may be used in computing systems, network devices, or embedded systems where controlled and secure data exchange is required. The set interface's placement between the communication circuitry and the processor ensures optimized data flow and reduces the risk of interference or data corruption during transmission.
26. The device according to claim 21 , wherein the processor is configured to start the application and the application is for exchanging data with a selected external target from among external targets detected by the communication circuitry.
This invention relates to a device with communication circuitry for detecting external targets and a processor that initiates an application to exchange data with a selected target. The device includes a display for presenting a user interface, where the processor generates a list of detected external targets and allows a user to select one. Upon selection, the processor starts an application specifically designed for data exchange with the selected target. The application may include protocols or interfaces tailored to the target's capabilities, ensuring efficient and compatible communication. The device may also include input circuitry for user interaction, such as touch or button inputs, to facilitate target selection. The communication circuitry may support various wireless or wired protocols, enabling detection and connection to diverse external devices. The processor dynamically manages the application lifecycle, ensuring it is launched only when needed for the selected target, optimizing resource usage. This system enhances user experience by simplifying target selection and automating the appropriate application launch for seamless data exchange.
27. The device according to claim 21 , wherein the interface indicates a processing setting for the communication circuitry.
A device includes communication circuitry configured to transmit and receive data signals, and an interface that provides user control over the device's operations. The interface allows a user to adjust processing settings for the communication circuitry, such as signal modulation parameters, transmission power levels, or data encoding schemes. These settings can be modified to optimize performance based on environmental conditions, network requirements, or user preferences. The device may also include a display for visual feedback and input mechanisms like buttons, touchscreens, or software controls. The interface ensures that the communication circuitry operates efficiently while maintaining compatibility with external systems. The device may further incorporate error detection and correction mechanisms to enhance data integrity during transmission. By allowing dynamic adjustment of processing settings, the device adapts to varying operational demands while ensuring reliable communication.
28. The device according to claim 21 , wherein the interfaces indicate a processing allocation.
A system for managing data processing in a distributed computing environment addresses inefficiencies in workload distribution across multiple processing units. The system includes a plurality of processing units, each configured to execute tasks, and a control module that dynamically allocates tasks to the processing units based on their current load and capabilities. The control module monitors the performance metrics of each processing unit, such as processing speed, memory usage, and task completion time, to optimize task allocation and prevent bottlenecks. The system further includes interfaces that facilitate communication between the control module and the processing units, enabling real-time adjustments to task distribution. These interfaces also indicate processing allocation, providing visibility into how tasks are assigned across the system. By dynamically adjusting task allocation based on real-time performance data, the system improves overall processing efficiency, reduces idle time, and ensures balanced workload distribution. This approach is particularly useful in high-performance computing environments where task prioritization and resource optimization are critical. The system can be applied in cloud computing, data centers, or any distributed processing architecture requiring adaptive workload management.
29. The device according to claim 21 , wherein the interfaces indicate an amount of processing allocated to the communication circuitry.
This invention relates to a device with communication circuitry and interfaces that display the amount of processing resources allocated to the communication circuitry. The device includes a processor and communication circuitry for transmitting and receiving data. The interfaces, which may be graphical or physical indicators, provide real-time or configurable feedback on the processing power dedicated to the communication functions. This allows users or system administrators to monitor and adjust resource allocation dynamically. The interfaces may include visual displays, such as bar graphs or numerical values, or physical indicators like LEDs, to represent the processing load. The invention aims to optimize communication performance by ensuring adequate processing resources are allocated, preventing bottlenecks or inefficiencies in data transmission. The device may also include additional features, such as automatic load balancing or user-adjustable settings, to further enhance communication efficiency. The interfaces can be integrated into the device's user interface or accessible remotely, enabling flexible monitoring and management of processing allocation. This solution addresses the problem of inefficient resource utilization in communication systems, where insufficient processing power can lead to delays or failures in data transfer.
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December 15, 2020
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